The Outflow-Disc Interaction in Young Stellar Objects

Astronomy and Astrophysics – Astrophysics

Scientific paper

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Astrophysical Dynamics 1999/2000, Alessandro B. Romeo (Ed.), Onsala Space Observatory, 2000, pp.63-74, 9 figures

Scientific paper

In this work the most spectacular phenomena occurring during the formation of a star are briefly reviewed: accretion through a rotating disc of matter and outflow through the poles of the new stellar object. Magnetic fields have been proposed to be principally responsible for the coexistence of these opposed mechanisms of accretion and outflowing. According to different models, the magnetic fields are either twisted or stretched by the accretion disc, allowing the formation of polar channels through which part of the accreting matter can escape. The high degree of coupling between the physical parameters describing the young stellar object (e.g. circular velocity of the disc and the central object, viscosity, strength and freezing of magnetic fields, etc.) makes detailed understanding of the interaction between accretion discs and outflows very difficult. The models presented here provide only a partial answer to this difficult problem.

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